corresponding to Schäfer et al., 2025, bioRxiv: Data-driven burst shape analysis for functional phenotyping of neuronal cultures
@article{schaefer2025data-driven,
author = {Sch{\"a}fer, Tim J. and Giannakakis, Emmanouil and Schmidt-Barbo, Paul and Levina, Anna and Vinogradov, Oleg},
title = {Data-driven burst shape analysis for functional phenotyping of neuronal cultures},
year = {2025},
doi = {10.1101/2025.09.29.679256},
journal = {bioRxiv},
}
notebooks/tutorial.ipynb walks you through the basic pipeline step-by-step.
You can also try out the analysis pipeline without installing anything using the following online tools.
Try burst visualization (10s loading time)! This is used to visualize all recordings and for adjusting burst detection hyperparameters.
Try embedding visualization (10s loading time)! This is used for visualizing the spectral embedding (of individual burst shapes) and exploring this burst shape space.
- Blocked inhibition --- Bicuculline (data: Vinogradov et al., 2024)
- Kleefstra syndrom (hPSC) (data: Mossink et al., 2021)
- CACNA1A mutation (data: Hommersom et al., 2024)
- Burst visualization (data not public yet)
- Embedding visualization (data not public yet)
- Developing cultures (data: Wagenaar et al., 2006)
- Burst visualization (dataset too large)
- Embedding visualization (dataset too large)
The project uses uv for dependency management. Install uv with
curl -LsSf https://astral.sh/uv/install.sh | shor via Homebrew (brew install uv).
Then, from the repo root, run
uv syncThis creates a .venv/ with Python 3.13, installs burst_shape editable, and pulls in every PEP 735 dependency group declared in pyproject.toml (web, analysis, dev). Activate the venv with source .venv/bin/activate, or prepend uv run to any command (e.g. uv run pytest, uv run python scripts/...).
See DEPLOY.md for how to build the Docker images and push the online tools to Google Cloud Run.

